Methods to treat HIV (Human Immunodeficiency Virus) have improved greatly since the virus first began to affect humans, in the late 1980s. A few of those infected never developed full-blown AIDS, but for the majority, the inevitable result would have been wasting away due to an inability to fight diseases. Treatment for HIV has improved continuously, and the disease is no longer considered to be fatal once the affected person receives treatment. These treatments have at least two disadvantages, however: they would need to be continued for the duration of the individual’s lifetime and there are also uncomfortable side effects. Researchers are confident that there will eventually be a cure for HIV, and they continue to do tests that may take us closer to finding one.
Scientists from The University of Massachusetts Medical School have published an article in Nature, which states the possibility of decreasing the spread of HIV using cells which occur naturally in our bodies. Ironically, these are the same cells which the virus attacks. HIV breaks down the immune system by infecting and destroying CD4 positive ‘helper’ T-cells.
These white blood cells are vital to fighting off infection, which is why HIV is so efficient at wrecking havoc in the immune system. After affecting some of the cells, the virus uses these to travel through the body and infect other CD4s. T-cells transport these by settling in between lymph nodes, and others areas, that the free virus would be unable to reach.
The researchers found that there are proteins in the T-cells in our immune system which naturally fight HIV. SERINC5 and SERINC3, two host cell proteins, are able to stifle HIV-1 by greater than 100-fold. The HIV-1 genome has nine genes which can be replicated in the host cell, which then produce virions (the infectious part of the virus). They begin a cycle of infection by looking for new cells to infect. One of these, NEF (which is a key part in the development of AIDS) helps the process by blocking the SERINC proteins, so that they are unable to reach the cell’s surface. This means that they will no longer become a part of the newly formed virions. Developing a drug to restrict NEFs would allow the system to fight HIV, as the virions would then include SERINC3 and SERINC5 making them unable to infect new cells. This process could then be applied to other infectious viruses with NEF proteins.
end with ‘The Grand Finale.’ This event is scheduled to incorporate 22 deep dives between the planet’s clouds and innermost ring, ending with a massive plunge directly into its atmosphere.


The process of freezing the body begins as soon as possible after death to minimize potential brain damage. It is first cooled in an ice bath to gradually reduce its temperature, and in some cases CPR may be administered to prevent the death of brain cells. The blood is then drained from the person’s system and replaced with an anti-freeze fluid, to prevent harmful crystals from forming within the blood. After this initial process, it is packed in ice and transferred to a holding facility in either the United States or Russia.
Acclaimed neuroscientist, Dr. Sergio Canavero, has recently announced that the world’s first human head transplant will be attempted within the next 10 months. The operation will take place on a Chinese citizen, in Harbin, China, who will be the recipient of a donor body. Its success will also lead to even greater advances, as the team will then attempt to reawaken the first frozen head. Canavero will remove the brain from a cryogenically frozen head and transplant it in a donor body, resulting in the first technologically assisted human resurrection.